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To See Their Biographies CivicScientistprécis CivicC - A Model for the Future 60 Robert F. Curl Jr., Ph.D., Sir Harold Kroto, Ph.D., and the late Richard Smalley, Ph.D., are world-renowned scientists, Nobel Prize winners and advocates for science in society. These three scientists were all members of the six-person team that discovered a new carbon molecule, buckminsterfullerene (C60), which revolutionized carbon-based chemistry and established the new and exciting field of research known as nanotechnology. In addition to their scientific achievements, these men have utilized their scientific reputation and expertise to further public engagement and understanding of science to better their communities, nation and world. Curl has advocated for environmental awareness, leadership, and science and math education reform. Kroto has dedicated his time to improving science and math education through the Vega Science Trust initiative. Smalley argued for the development of new technologies to address the world’s increasing energy demands and was a significant proponent for the nation’s and the world’s support of nanotechnology. It is because of these efforts to integrate science and society that Curl, Kroto and Smalley are the 2010 Civic Scientists as named by the Baker Institute Science and Technology Policy Program. Nobel work: The discovery of 60C The discovery of C60 was made possible by Smalley’s invention of a supersonic cluster beam apparatus capable of creating and investigating the properties of clusters of any material. Its application to carbon clusters began with Kroto’s interest in the formation of long-chain carbon molecules. In 1984, Curl, Kroto’s colleague who was at Rice University, introduced him to Smalley and his invention. Kroto realized that this apparatus could simulate the process by which carbon was expelled into the circumstellar environment where the carbon atoms could form clusters. He believed that this was the process by which the long carbon-chain molecules that he had observed by radioastronomy were formed. Kroto, Smalley and Curl conducted the carbon chain experiments suggested by Kroto with the help of three graduate students, Jim Heath, Sean O’Brien and Yuan Liu. In the course of these experiments, the team accidentally discovered evidence that a molecule with the chemical formula of C60 was self-assembling in large quantities. It was clear from the evidence obtained during a 10-day period in September 1985 that the C60 cluster must have a special structure that made it especially stable and chemically unreactive. A closed-sphere design was formulated for this uniquely stable cluster, which was dubbed buckminsterfullerene, after Buckminster Fuller, the American architect and inventor who popularized the geodesic dome. The paper on the discovery of this “buckyball” was written in two days and submitted for publication to the journal Nature. The detection of C60 led to the discovery of a new class of molecules known as fullerenes, solely composed of carbon in a cage-like arrangement. Measuring a billionth of a meter in diameter, these molecules suggested that there could be exciting new methods of self-assembly to make many other nanometer- scale structures. This, together with tremendous new advances in the ability to “see” nanometer-scale by Nathan Lo, Kara Calhoun, David Liou, Kenneth Evans, Kirstin Matthews, Ph.D., and Neal Lane, Ph.D. Robert F. Curl Jr., Ph.D., is the Kenneth S. Pitzer-Schlumberger Professor of Natural Sciences Emeritus and University Professor Emeritus at Rice University. He is also a Baker Institute Rice Scholar. 2 structures on surfaces, led Smalley to envision that the time was finally right to focus scientific interest and resources on the submicroscopic world of the nanometer scale. Thus, the new field of nanotechnology, which deals with the precise control and manipulation of matter on a nanometer (one billionth of a meter) scale, was born. With applications in medicine, materials, energy environmental remediation and other areas, nanotechnology has the potential to revolutionize other technologies. In one distinct subarea of nanotechnology, the discovery of the C60 and other fullerenes sparked innovative, carbon-based approaches to the synthesis of new materials, as well as new approaches for harnessing solar energy and targeting drug delivery in the body. The C60 molecule, fullerene chemistry and nanotechnology are helping to improve the world we live in. Robert F. Curl Jr. Robert F. Curl was born in Alice, Texas, in 1933. Growing up, Curl first developed an interest in science when he received a chemistry set as a gift in grade school. He spent so much time with the kit that he exhausted all the experiments provided with the set and mixed every possible permutation of chemicals. Curl attended Thomas Jefferson High School in San Antonio, where he continued to experiment with chemistry beyond the regular curriculum. He received special projects from his high school chemistry teacher and even performed stovetop research in his parents’ kitchen. This exposure — and genuine interest at an early age — solidified Curl’s dedication to science and began his outstanding career as a chemist. Curl arrived at Rice University (then Rice Institute) as an undergraduate in 1950, excited by its academic reputation and free tuition. He excelled academically, graduating with a Bachelor of Arts in chemistry in 1954, and earned a National Science Foundation predoctoral fellowship to attend the University of California, Berkeley, to work with Kenneth Pitzer, Ph.D., who, later in his career, would serve as president of Rice. At Berkeley, Curl worked in both experimental and theoretical chemistry, graduating with a doctorate in 1957. Curl held a postdoctoral position at Harvard University under E. Bright Wilson Jr., with a research focus on measuring barriers to internal rotation using microwave spectroscopy. In 1958, he accepted a job offer as an assistant professor in the Rice University Chemistry Department, and was promoted to full professor in 1967. Soon thereafter, he served as the first master of Lovett College. Later, he was thrilled to be named the first Kenneth S. Pitzer-Schlumberger Professor of Natural Sciences. In 2003, Curl was named a University Professor, Rice’s highest academic title. The same year, he became a Baker Institute Rice scholar. In recent years, Curl has been an advocate of K-12 science, technology, engineering and math (STEM) education reform, cleaner energy and climate change initiatives. He often speaks publicly about the need for climate change policy development, and makes presentations on the history and future of carbon. Curl has become progressively more active within environmental policy through the Baker Institute. In 2010, he and Dagobert Brito, Ph.D., Peterkin Professor of Political Economy at Rice University, published an article describing a simple model that can be used to estimate the cost of carbon dioxide constraints in the production of electricity (Economics of Pricing the Cost of Carbon Dioxide Restrictions in the Production C60 - A Model for the Future Sir Harold W. Kroto, Ph.D., is currently Francis Eppes Professor of Chemistry at The Florida State University, conducting research in nanoscience and cluster chemistry as well as developing new approaches to science, technology, engineering and math educational outreach. 3 of Electricity: http://www.bakerinstitute.org/BritoCurl-CO2ElecEcon). He has also advocated for the adoption of the STEM education reforms proposed by the The Academy of Medicine, Engineering and Science of Texas (TAMEST). And he is currently chair of the Advisory Committee on Research Programs of the Texas Higher Education Board. Furthermore, throughout his tenure at Rice, Curl has shown a strong commitment to student life and the Rice academic community. He has served on several university committees and as chair of the Chemistry Department. Curl taught a course at Rice nearly every semester starting in 1958 until he went on full emeritus status in July 2008. Sir Harold Kroto Born Harold Walter Krotoschin in 1939, Kroto grew up in Bolton, England, with his parents, who had fled Nazi Germany prior to his birth. He attended the prestigious Bolton School, where he enjoyed the arts, geography and gymnastics. Kroto’s interest in chemistry was piqued at a young age, eventually leading to his studies at Sheffield University. At Sheffield, he played tennis and was the art director of the school magazine Arrows. After earning his degree with first-class honors in 1961, Kroto continued on at Sheffield University to earn his Ph.D. in 1964 for his research in molecular spectroscopy under Richard Dixon, Ph.D. Soon after, Kroto and his wife Margaret moved to Ottawa, Canada, for a postdoctoral position at the National Research Council Canada. Two years later, he moved to Bell Labs in Murray Hill, N.J., to continue research in spectroscopy. In 1967, Kroto returned to England to take a position at the University of Sussex. The next few years in Sussex solidified Kroto’s interest in pursuing science over the arts. At Sussex, he began the research that eventually led to his co-discovery of the C60 molecule in 1985. This same year, Kroto became a full professor at the University of Sussex. Kroto attributes his scientific success to a childhood full of science and engineering experiences. As a child, he grew up visiting his father’s toy balloon factory, constantly immersed in a world of machinery. He also spent a lot of time playing with Mecanno, a construction toy that allows children to build working models and mechanical devices and that he believes are superior to today’s Lego toys. The decline of Mecanno, he believes, is one reason for the decreased public interest in science in the United Kingdom in recent years. In addition to Kroto’s groundbreaking scientific contributions, he is also known for his use of the Internet to improve science education. Using his prestige, and later his fame from the Nobel Prize, Kroto established the Vega Science Trust in 1995 (http://vega.org.uk/).
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